An Evidence-Based Approach for Choosing Post-Exercise Recovery Techniques to Reduce Markers of Muscle Damage, Soreness, Fatigue, and Inflammation: A Systematic Review With Meta-Analysis
Sample
99 studies (corrected 2026-10-12, full text: abstract and Results both state 99) (randomized controlled trials, crossover trials and repeated-measures studies) from PubMed, Embase and Web of Science. Pooled participant number is not given in the abstract; the Results give 1188 participants in the 80 DOMS studies and 266 in the 17 perceived-fatigue studies (corrected 2026-10-12, full text).
Key Findings
DOMS: active recovery, massage, compression garments, immersion, contrast water therapy and cryotherapy each produced a small to large decrease (-2.26 < g < -0.40); the other methods (stretching, electrostimulation) produced no change
Massage was the most powerful technique for recovering from DOMS and perceived fatigue
Muscle damage and inflammation, all techniques pooled: moderate decrease in creatine kinase, SMD -0.37 (95% CI -0.58 to -0.16), I² = 40.15%; small decreases in interleukin-6, SMD -0.36 (-0.60 to -0.12), I² = 0%, and C-reactive protein, SMD -0.38 (-0.59 to -0.14), I² = 39%
Most powerful for inflammation: massage and cold exposure
Authors' conclusion: massage seems the most effective method for reducing DOMS and perceived fatigue; perceived fatigue can be managed with compression techniques — compression garments, massage or water immersion
Practical Application
Pooling 99 studies (corrected 2026-10-12, full text), massage was the single most effective recovery technique for soreness and perceived fatigue; active recovery, compression garments, water immersion, contrast therapy and cryotherapy also cut soreness (g from -0.40 to -2.26), while stretching and electrostimulation did nothing for it.Across techniques, muscle-damage and inflammation markers fell modestly (CK SMD -0.37, IL-6 -0.36, CRP -0.38), with massage and cold the strongest there.
Demote static stretching as a recovery tool — it did not reduce soreness in this meta-analysis; use it for flexibility (REF-382)
For perceived fatigue the abstract names compression garments, massage or water immersion as the effective options — pick by availability
Not from this paper; the base's own practice: a "body maintenance" day in a congested block = massage (or self-massage) plus compression garments plus a full night's sleep; the meta-analysis did not test combinations, so stacking is practice, not a pooled finding
Limitations
Heterogeneous protocols within each modality
Outcomes are subjective (DOMS, perceived fatigue) and biochemical (CK, IL-6, CRP); performance recovery and objective stiffness are not the outcomes here
"Massage" aggregates techniques — effect sizes may differ by technique
The abstract gives per-modality effect sizes only as a range for DOMS; the modality-by-outcome ranking beyond "massage first, then cold for inflammation" is not reported there
How this entry was checked and changed
Content correction 2026-09-27
"99 studies, pooled sample 3,650" -> the 99-study count was right: the abstract and Results both say 99 studies (the earlier change to 107 was wrong; corrected 2026-10-12, full text); no single pooled n is given (1188 participants for DOMS, 266 for perceived fatigue).
The modality × outcome table (Large/Moderate/Small/None cells for eight modalities across four outcomes) -> not in the abstract, which gives one DOMS range for six effective modalities and pooled CK/IL-6/CRP effects across all techniques; table removed and replaced by the abstract's numbers.
"Electrostimulation: small (+) for DOMS and fatigue" -> the abstract lists electrostimulation among methods with no change in DOMS. Corrected.
"Best stacking: massage + compression + sleep gives additive benefit", "30-min full-body massage ... + 9 h sleep — highest-ROI combination", "massage > compression > CWI > contrast" ranking -> not tested; removed or relabelled as house practice. Sport strength -> general.
Cross-reference descriptions checked against the cited entries' current content; wrong years, wrong entries and claims the cited entry does not make were corrected.
2026-10-01: cross-reference repointed from a merged framework to the one that replaced it (SYNTH-01→31, 05→34, 09→70, 12/15→32, 19→26).
2026-10-01: citation of the superseded pointer SYNTH-09 repointed to SYNTH-70, which carries the cited content.
Full text (checked 2026-10-12)
Correction: the entry's Sample line and Content correction give a larger study count attributed to the abstract, but the paper's abstract and Results both state 99 studies met the inclusion criteria (80 for DOMS with 1188 participants and 106 experimental groups; 17 for perceived fatigue with 266 participants) (full text).
DOMS by modality: massage SMD −2.26, active recovery −0.94, compression garments −0.92, cryotherapy −0.53, immersion −0.47, contrast water therapy −0.40 (all significant); stretching 0.15, electrostimulation −0.28 and hyperbaric therapy 0.55 were not significant (full text, Table 1).
Perceived fatigue by modality: massage SMD −2.55, immersion −1.16 and compression garments −0.88 were significant, while active recovery (0.64) and contrast water therapy (−0.04) were not (full text, Table 1).
Pooled across techniques, recovery reduced DOMS (SMD −0.78) and perceived fatigue (SMD −1.40), and the effect on DOMS was greater in males than in females (Z = 4.44, p < 0.01) (full text).
Immersion at ≤15°C reduced DOMS (SMD −0.62) whereas immersion at ≥ 36° did not (SMD 0.53), and only water below 15°C had a positive impact on inflammation (full text, Table 2).
Massage reduced DOMS significantly up to 96 h after exercise and was the most effective technique for lowering circulating CK and IL-6; compression garments produced no significant change in CK, IL-6 or CRP (full text).
Only single recovery sessions in healthy adults (>18 years to <65 years) were included; repeated sessions and combined modalities (e.g., ice + massage) were excluded (full text).